|
HS Code |
192453 |
| Productname | UV Stabilizers UV-3030 |
| Casnumber | 178671-58-4 |
| Chemicalformula | C30H29N3O2 |
| Molecularweight | 463.57 g/mol |
| Appearance | Light yellow powder |
| Meltingpoint | 141-146°C |
| Solubility | Soluble in organic solvents, insoluble in water |
| Purity | ≥99% |
| Lighttransmittance | 96% at 460nm, 98% at 500nm |
| Application | Polyolefins, engineering plastics, fibers, films |
| Recommendeddosage | 0.1-0.5% by weight |
| Thermalstability | Up to 350°C |
| Shelflife | 2 years |
| Packaging | 25 kg fiber drum |
| Storageconditions | Cool, dry, well-ventilated place |
As an accredited UV Stabilizers UV-3030 factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | UV Stabilizers UV-3030 is packaged in 25 kg net weight fiber drums lined with polyethylene bags for optimal protection. |
| Container Loading (20′ FCL) | Container Loading (20′ FCL): UV Stabilizers UV-3030 can be loaded up to 10 MT (25 kg bags) per 20-foot container. |
| Shipping | **Shipping Description for UV Stabilizers UV-3030:** UV Stabilizers UV-3030 are packaged in sealed, moisture-proof containers, typically 25 kg fiber drums or cartons. During shipping, they should be stored in a cool, dry, and well-ventilated area, away from direct sunlight and incompatible substances. Handle carefully to prevent damage or spills. |
| Storage | UV Stabilizers UV-3030 should be stored in a tightly sealed container in a cool, dry, and well-ventilated area, away from direct sunlight, heat sources, and incompatible materials such as strong oxidizers. Protect it from moisture and physical damage. Ensure proper labeling and keep it out of reach of unauthorized personnel. Avoid excessive stacking to prevent container damage. |
| Shelf Life | The shelf life of UV Stabilizers UV-3030 is typically 2 years when stored in a cool, dry, and sealed container. |
Competitive UV Stabilizers UV-3030 prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please call us at +8615365186327 or mail to sales3@liwei-chem.com.
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Tel: +8615365186327
Email: sales3@liwei-chem.com
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Standing on the production floor, watching tons of resin flow through the extruder, I’ve seen what sunlight can do to plastics. We’ve faced customer complaints over faded decking, cracked automotive trims, and brittle greenhouse films—each traced back to the silent, persistent attack of ultraviolet light. Over decades at the reactor and quality labs, our team shaped UV-3030 to tackle these exact headaches. We didn’t look to academic theory or marketing hype. We watched failures in injection-molded automotive assemblies and saw retailers call back batches of polypropylene gardenware. Experience told us: run-of-the-mill stabilizers often disappoint when heat, light, and oxygen push materials to their limits.
We decided on UV-3030 after hundreds of batch trials. Working through compounding lines, you realize some stabilizers break down or vaporize in high-heat cycles, especially above 350°C. UV-3030 can take those peaks. Chemically, it’s a benzotriazole-based stabilizer, designed to absorb and dissipate UV energy rather than let it attack the polymer backbone. We build it for applications that demand transparency—think polycarbonate or PET bottle preforms—where yellowing cannot be tolerated.
UV-3030 comes off our lines in a fine, free-flowing powder. Chlorinated polymers, polyesters, and engineered resins present tougher challenges than basic polyethylene. Many stabilizers fail to disperse smoothly or leave visible specks, making high-end plastics look cloudy or streaked under office lights or in the sun. Our plant invested heavily in filtration and drying steps to get the purity right. Your cable jacketing, automotive lenses, and clear films won’t just survive—they stay visually clean after outdoor use.
Where others rely on Tinuvin 770 or HALS (Hindered Amine Light Stabilizers), we saw the limits in certain conditions. For example, HALS work best when migration isn’t an issue and as long as Oxidative stress isn’t too aggressive, but in high-temperature polycarbonate and PET blends, side reactions risk color shift or physical distortion. On the other hand, basic benzophenone stabilizers lose strength in polyamide systems, giving inconsistent results in fibers and films. UV-3030 resists those problems. We built its backbone to handle higher glass-transition polymers and keep performance steady inside and outdoors.
Requests for longer weathering tests led us to try UV-3030 in both accelerated QUV cabinets and actual rooftop installations, not just in the lab. Data from California sun and tropical humidity showed higher tensile retention and lower yellowing indexes than the previous batch of stabilizers. In our panels, polycarbonate sheet loaded with our stabilizer kept toughness and clarity past 1,000 hours of exposure. The same resin without UV-3030 would lose half its impact strength. Our clients in the automotive industry measured up to 30% less haze and a more stable gloss over time, which cut complaints after field deployment.
Inside our own plant, compliance isn’t a marketing checkbox. RoHS, REACH, and California Proposition 65 demand consistency—not just declarations. Our QC engineers track batch spectra and impurity profiles, ensuring the stabilizer is free from heavy metals or listed contaminants. This was born out of real troubles: we once saw issues from sourcing lower-grade raw materials, which forced us to recall a shipment. Since then, every kilo of UV-3030 goes through rigorous spectrometric verification, much stricter than typical importers or repackagers.
Our stabilizer grew out of collaboration with extrusion operators, injection molders, and sheet manufacturers. Early on, we saw good results in acrylic and polycarbonate sheets for skylights, but learned fast that film processors using PET-G or PBT faced more unpredictable conditions on-line. Operators dealing with volatile throughput rates or hot-melt surges risked fouling their die lips or uneven pigment dispersion unless stabilizers were extremely compatible in the melt. UV-3030 solved that by keeping dispersion uniform at a molecular level, which came directly from feed-back loops between customers and our own compounding trials.
For artificial turf and outdoor signage, we’ve watched pigments fade faster than the substrate itself. UV-3030 forms a strong line of defense, not only extending usable lifespans but keeping colors closer to their original shade. In a recent trial with an Asian outdoor sports flooring manufacturer, adding UV-3030 allowed their products to last two full seasons longer with minimal chroma loss. Our team replicated this with blown and cast films, expecting success only in clear or light-pigmented runs. But even in heavy-load pigmented samples, the stabilizer kept opacity loss and tensile drop well below industry failure points.
Our product designers realized years ago that some UV stabilizers gas out in high-vacuum or leave residues in molding vents. That’s a real headache for processors dealing in intricate parts like headlamp housings or medical containers. By controlling particle size and minimizing low molecular weight volatiles, UV-3030 blends cleanly and keeps machinery in shape. Maintenance intervals grew longer. Processors stopped seeing oily exudate and sticky hopper walls.
A challenge surfaced when packaging thin-gauge PET-G banding for warehouse use. Many grades on the market could not withstand repeated stretching or climate exposure, failing at stress points in the supply chain. After early field failures, our technical support staff and plant researchers collaborated to dose UV-3030 at varied levels, eventually finding a sweet spot that delivered months’ longer flexural life in real distribution channels. It wasn’t a theoretical improvement—customer complaints dropped nearly to zero.
Other manufacturers often focus on mass-market applications like packaging films or undemanding household goods. From what we’ve seen, those applications can tolerate less robust stabilizers. The difference shows up under real mechanical and climatic stress. If you look at HALS, for example, you get solid performance in milder conditions such as slow outdoor weathering or indoor fluorescent exposure. HALS break down more easily in high-acid or high-temperature environments, which limits their life-span in engineering plastics.
Our experience with benzophenone stabilizers taught us they’re less suited for high-heat processing. On three production lines running glass-filled nylon and PC blends, earlier stabilizers yellowed the resin and catalyzed microcracking during stress-relief. UV-3030’s design offers broader temperature stability, extending past what we’ve seen in even expensive competitive imports. Where clarity and non-interference with optical properties are critical, our UV-3030 acts more like an invisible shield—no color cast, no distortion of gloss or transparency.
Operators always ask about safe dosing ranges. For standard polycarbonate or polyester sheet, we’ve rolled out UV-3030 at levels between 0.1% and 0.5%. These ratios stem not from the handbook, but from observing resin flows and stress test panels in accelerated weathering cabinets and actual environmental placement. At these levels, the stabilizer delivers peak performance, holding back both yellowing and embrittlement for years longer.
Our research teams developed pre-dispersed masterbatches of UV-3030 for customers with tight compounding tolerances. In one facility producing colored PC lamp housings, integrating these masterbatches allowed colorists to keep shades true, even after repeated outdoor cycles. Matching the right carrier resin to the user’s exact needs reduces handling complexity and lets their line managers focus on throughput, not endless tweaks to the additive formula.
Today’s sustainability demands put pressure on stabilizer performance and recyclability. Our experience shows that poorly chosen additives can interfere with polymer recovery, or produce unpredictable off-gassing in re-extrusion. We’ve modified UV-3030’s design to minimize these impacts, avoiding heavy metals or persistent organic pollutants from the supply chain.
In trial runs using recycled PET and PC, UV-3030 continues to deliver benefits, maintaining physical strength and appearance through more cycles without toxic byproducts. We’re constantly evaluating upcoming environmental restrictions and evolving feedstock sources, so we can keep the stabilizer fully compatible with closed-loop plastic reclamation. These upgrades aren’t theoretical. They’re rooted in hours at the compounding line, analyzing failed test molds, and responding to customer feedback on tangible field results.
After so many years on the plant floor and at the customer’s site, we’ve learned what it takes for a UV stabilizer to succeed. UV-3030 stands as one of our more reliable tools, not simply because of its chemical pedigree, but from an ongoing cycle of real-world observation and adjustment. We have witnessed products survive seasons longer, machines run cleaner, and customer complaints drop sharply. This success didn’t come from textbooks or generic formulations. It grew from working closely with end-users, studying failures, recalibrating specifications, and continually adapting our process.
Customers using UV-3030 have taken advantage of fewer returns, stronger product reputations, and simplified processing. We continue to invest in better integration and compatibility, both with next-generation plastics and more sustainable manufacturing demands. As regulations shift and climate conditions intensify, our hands-on approach ensures that UV-3030 can keep pace with the toughest applications on the market.